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Wendy Pogozelski

SUNY Distinguished Teaching Professor of Chemistry
ISC 327D
585-245-5453
pogozels@geneseo.edu
Image
Portrait of Wendy Pogozelski

Wendy Pogozelski has been a member of the Geneseo faculty since 1996.

Office Hours

Curriculum Vitae

Education

  • Post-doc, Naval Research Laboratory and Armed Forces Radiobiology Research Institute

  • Ph.D., The Johns Hopkins University

  • B.S., Chatham University

Affiliations

  • Nutrition and Metabolism Society

  • American Chemical Society

  • Radiation Research Society

  • American Society for Biochemistry and Molecular Biology

  • Mitochondria Research Society

  • Council on Undergraduate Research

Publications

  • R.D.Feinman, W.K.Pogozelski, A.Astrup, R.K.Bernstein, E.J.Fine, E.C.Westman, A.Accuros, L.Frasetto, S.McFarlane, J.V.Nielsen, T.Krarup, B.A.Gower, L.Saslow, K.S.Roth, M.C.Vernon, J.S.Volek, G.B.Wilshire, A.Dahlqvist, R.Sundberg, A.Childers, K.Morrison, A.H. Manninen, R.J.Wood, J.Wortman, N.Worm, Dietary Carbohydrate Restriction as the Default Treatment for Diabetes: The Evidence Base, Nutrition, 2015 (available online in 2014 at http://www.nutrtionjrnl.com/article/S0899-9007(14)00332-3/fulltext)

  • W.K.Pogozelski, "The Uses of Metabolic Adversity", ASBMB Today, March 2013.

  • W.K. Pogozelski, L. Fletcher, C. Cassar, I.A. Trounce and C.A. Pinkert, The mitochondrial genome sequence of Mus terricolor: Comparison with Mus musculus domesticus and implications for xenomitochondrial mouse modeling, Gene, 2008, 418(1,2), 27-33.

  • W.K. Pogozelski, S.F.Priore, M.P. Bernard, A.J.Macula, "Experimental Validation of DNA Sequences for DNA Computing: Use of a SYBR Green Assay", Lecture Notes in Computer Science, DNA 11 , 2006, 3892, 248-256.

  • A.G.D'yachokov, A.J. Macula, W.K.Pogozelski, T.E.Renz, V.VRykov, D.C.Torney, "New t-Gap Insertion-Deletion-Like Metrics for DNA hybridization Thermodynamic Modeling", J. Comput. Biol. 2006, 13(4), 866-881.

  • W.K.Pogozelski, S.F.Priore, N.Arpaia, "The Metabolic Effects of Low-Carbohydrate Diets and Incorporation into a Biochemistry Course", Biochemistry and Molecular Biology Education, 2005, 33(2), 91-100.

  • A.Macula, A.D'yachkov, W.K.Pogozelski, et al., "An Insertion-Deletion Like Metric with Application to DNA Hybridization Thermodynamic Modeling"", Lecture Notes in Computer Science 2005, 3384, 90-103.

  • I.A.Trounce, M.McKenzie, C.A.Cassar, C.A. Ingraham, C.A.Lerner, D.A. Dunn, C.L. Donegan, K. Takeda, W.K. Pogozelski, R.L. Howell and C.A. Pinkert, "Development and Initial Characterization of Xenomitochondrial Mice: Mitochondria and Neuroprotection - In Memory of Albert L. Lehninger" J. Bioenerg. Biomembr. 2004, 36(4) 421-427.

  • For full list of publications, please see my C.V.

More About Me

Interests

Teaching:  new ways to teach biochemistry and chemistry
New ways to teach the biochemistry of nutrition
Incorporation of demonstrations into lectures
Studying the biochemistry and physiology of low-carbohydrate diets, ketogenic diets, other nutrient-controlled diets
Mitochondrial function and mitochondrial DNA
Radiation effects
DNA chemistry
Molecular basis of metabolic disorders, including type 1 and type 2 diabetes
Biomolecular/DNA computing

 

Research Interests

My research has two arms: The first is in nutrition and metabolism, using a mechanistic/molecular and evidence-based approach, and the biochemical basis of metabolic disorders and diseases such as type 1 and type 2 diabetes. The second arm is my "bench" research, studying mitochondrial function, mitochondrial DNA, and radiation effects. I have also worked in biomolecular computing, but am no longer quite as active in that field.

 

Biochemistry Songs

To help my students learn metabolism, I began using songs and mnemonic devices. The songs really caught on and I have been asked to share my sources with others. 

Classes

  • CHEM 118: N/Chemistry II

    A continuation of CHEM 116. Topics to be covered include thermodynamics and reaction spontaneity, chemical kinetics, chemical equilibrium, properties of acids and bases, aqueous solution equilibria, electrochemistry, molecular structure and bonding theories, transition metals and their coordination compounds, and chemical properties of selected elements.

  • CHEM 334: Bioinorganic Chemistry

    This course examines the chemistry of inorganic elements in biological systems. Topics include the role of metals in proteins and enzymes, the use of metals in drug catalytic sites or as probes for biomolecular study, metals in migration and direction sensing, minerals in nutrition and toxicity, and the biochemical effects of radioactive elements. Prerequisites: CHEM 300 or CHEM 302 or BIOL 300. Not offered on a regular basis.